A simple method of shape transformation using the modified Gray–Scott model

IF 4.3 3区 工程技术 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY Extreme Mechanics Letters Pub Date : 2024-05-11 DOI:10.1016/j.eml.2024.102167
Ziwei Han , Haixiao Wang , Jing Wang , Jian Wang
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Abstract

In this paper, based on the original Gray–Scott model, we propose a modified Gray–Scott model by introducing a target term into the reaction–diffusion equations. We apply this modified model in the context of shape transformation problems. To expedite the process from the source shape to the target shape, we utilize the explicit Euler method to solve our proposed modified Gray–Scott model, making our approach simpler and more efficient. To validate the feasibility of our method, we conduct simulation experiments in both two-dimensional (2D) and three-dimensional (3D) spaces. By progressing through experiments of increasing complexity, we demonstrate the natural effectiveness of our simulation method as a viable approach for shape transformation. To demonstrate the efficiency of the method, we provide the runtime consumed by the simulated shape transformation experiment. Additionally, to assess the correspondence between the ground truth values of the target shape and the simulated results, we calculate the corresponding area change rate and volume change rate in 2D and 3D spaces to prove that our proposed method can effectively transform into the target shape.

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利用修改后的格雷-斯科特模型进行形状变换的简单方法
本文在原始 Gray-Scott 模型的基础上,通过在反应-扩散方程中引入目标项,提出了一种修正的 Gray-Scott 模型。我们将这一修正模型应用于形状变换问题。为了加快从源形状到目标形状的过程,我们利用显式欧拉法来求解我们提出的修正格雷-斯科特模型,从而使我们的方法更简单、更高效。为了验证我们方法的可行性,我们在二维(2D)和三维(3D)空间进行了模拟实验。通过复杂程度不断增加的实验,我们证明了我们的模拟方法作为形状变换可行方法的自然有效性。为了证明该方法的效率,我们提供了模拟形状变换实验所消耗的运行时间。此外,为了评估目标形状的基本真实值与模拟结果之间的对应关系,我们计算了二维和三维空间中相应的面积变化率和体积变化率,以证明我们提出的方法可以有效地转换为目标形状。
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来源期刊
Extreme Mechanics Letters
Extreme Mechanics Letters Engineering-Mechanics of Materials
CiteScore
9.20
自引率
4.30%
发文量
179
审稿时长
45 days
期刊介绍: Extreme Mechanics Letters (EML) enables rapid communication of research that highlights the role of mechanics in multi-disciplinary areas across materials science, physics, chemistry, biology, medicine and engineering. Emphasis is on the impact, depth and originality of new concepts, methods and observations at the forefront of applied sciences.
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